OMEGA HANI-B Manual

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™

HANI

Tank Temperature Sensor

High Accuracy Non-Invasive Tank

Temperature Sensor

UNRESTRICTED

the right to alter specifications without notice.

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Omega Engineering, Inc:

Tel: [phone]
e-mail: [e-mail]

Fax: [phone]

800 Connecticut Ave. Suite 5N01, Norwalk, CT 06854, USA
Toll-Free: 1-800-826-6342 (USA & Canada only)
Customer Service: 1-800-622-2378 (USA & Canada only)
Engineering Service: 1-800-872-9436 (USA & Canada only)

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Limited:

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Irlam Manchester M44 5BD

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Omega Engineering,

GmbH:

Daimlerstrasse 26 75392

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The information contained in this document is believed to be correct, but OMEGA accepts no liability for any errors it contains and reserves

2 | HANI™

Table of Contents

1. Notes, Warnings, and Cautions ............................................................................................................ 5

2. Getting Started ........................................................................................................................................ 6

2.1 HANI™ Tank Temperature Sensor Weld Mounting ....................................................................................... 7

2.2 HANI™ Tank Temperature Sensor Epoxy Putty Mounting ........................................................................... 9

3. Wiring Diagram ..................................................................................................................................... 13

3.1 M12 8-Pin Connector ......................................................................................................................................... 13

3.1.1 4-20 mA Process Signals ................................................................................................................................................13

4. 4-20 mA Plug and Play ......................................................................................................................... 14

5. SYNC Configuration ............................................................................................................................. 15

5.1 Configuring Inputs .............................................................................................................................................. 15

5.1.1 Calibration ..............................................................................................................................................................................17

5.1.2 Setting Alarms ......................................................................................................................................................................19

5.2 Configuring Device Settings ............................................................................................................................ 20

5.2.1 Transmit Interval ..................................................................................................................................................................20

5.2.2 Setting/Changing Passwords ......................................................................................................................................20

5.3 Data Logging ........................................................................................................................................................ 22

6. 4-20mA Loop-Powered Output .......................................................................................................... 23

6.1 Sensor Mapping ................................................................................................................................................... 23

6.1.1 4-20 mA Outputs Sensor Mapping ............................................................................................................................25

7. Pairing to an Omega Link Gateway ................................................................................................... 26

7.1 Wireless Pairing .................................................................................................................................................. 26

7.2 Wired Pairing ....................................................................................................................................................... 27

8. Specifications ........................................................................................................................................ 28

9. Appendix: HANI™ Tank Temperature Sensor Input Interface ....................................................... 29

9.1 Register Base Addresses ................................................................................................................................... 29

2 HANI™ Tank Temperature Sensor Temperature Input Interface ............................................................. 29

9.

9.2.1 Sensor Input Descriptor ..................................................................................................................................................29

9.2.2 Sensor Temperature Parameters ...............................................................................................................................31

9.2.3 Sensor User Calibration Parameters ........................................................................................................................32

9.2.4 Sensor IPSO Definition ....................................................................................................................................................32

9.3 DIO Interface ........................................................................................................................................................ 34

9.3.1 DIO Descriptor .....................................................................................................................................................................34

9.3.2 DIO IPSO Definition ...........................................................................................................................................................36

9.4 Output Configuration Registers ....................................................................................................................... 37

9.4.1 Scaling Minimum / Maximum Values.......................................................................................................................37

9.4.2 Output Values .......................................................................................................................................................................37

9.4.3 Output Names ......................................................................................................................................................................38

9.5 4-20 mA Output Configuration ........................................................................................................................ 38

9.5.1 High Range / Low Range................................................................................................................................................39

9.5.2 System Error ..........................................................................................................................................................................39

3 | HANI™

9.5.3 Output Type ...........................................................................................................................................................................39

9.5.4 Mapping Enabled ...............................................................................................................................................................39

9.5.5 Output Mapping ..................................................................................................................................................................40

9.5.6 Scaling Minimum/Maximum Values .........................................................................................................................40

9.5.7 4-20 mA Loop Powered Error .......................................................................................................................................40

9.6 Digital Output Configuration ............................................................................................................................ 40

9.6.1 Rate ............................................................................................................................................................................................41

9.6.2 Output Type ...........................................................................................................................................................................42

9.6.3 Active State ............................................................................................................................................................................42

9.6.4 Mapping Enabled ...............................................................................................................................................................42

9.6.5 Output Mapping ..................................................................................................................................................................42

4 | HANI™

1. Notes, Warnings, and Cautions

If the equipment is used in a manner not specified in this manual, the protection by the equipment
may be impaired.

Do not operate the equipment in flammable or explosive environments.

It is important to read and follow all precautions and instructions in this manual before operating or
commissioning this device as it contains important information relating to safety and EMC. Failure
to follow all the safety precautions may result in injury and/or damage to your equipment.

The following labels identify information that is especially important to note:

Note: Provides you with information that is important to successfully setup and use the device.

Caution or Warning: Tells you about the risk of electrical shock.

Caution, Warning, or Important: Tells you of circumstances that can affect the functionality of the

instrument and must refer to accompanying documents.

5 | HANI™

2. Getting Started

The Omega Engineering innovative technology for non-invasive temperature sensing delivers high
accuracy and fast response times without the costs of installation, damage, replacement, and
calibration that occur with an immersion sensor. The HANI™ Tank Temperature Sensor makes
measuring the temperature of a fluid in a metal tank easier than ever. There is no cutting or drilling
necessary. Simply weld or epoxy the stud mounts to the outside of the tank.

The HANI™ Tank Temperature sensor is designed to be used in conjunction with a 4-20 mA
connection for plug-and-play analog output, or with an Omega Link Smart Interface to utilize
customizable features using Omega’s SYNC configuration software through an integrated M12
connector.

Figure 1: HANI™ Tank Sensor Mechanical Dimensions in Inches

6 | HANI™

2.1 HANI™ Tank Temperature Sensor Weld Mounting for single wall tanks

Figure 2: Measure out

Setting up a HANI™ Tank Temperature Sensor in the field is quick and easy. Follow the instructions
below:

Step 1: Measure out stud mounting points, 3.5” spaced vertically on the

tank wall. Vertical mounting is important on curved surfaces to
keep the studs parallel.

mounting stud points at 3.5”

Step 2: Weld studs at measured points on the tank wall. Perform any

necessary cleaning.

Figure 3: Included studs

welded to tank

7 | HANI™

Step 3: Firmly press the HANI™ Tank Sensor over the

Figure 4: Secure the hardware nuts to properly

studs against the tank wall, tighten the
hardware nuts. Torque to hand tight plus 90°
turn, no more than 5 in-lbs.

Once the hardware nuts secure the HANI™ Tank
Sensor to the tank wall, the mounting process is
complete.

Be sure to remove any protective barrier
covering the thermal pad prior to mounting.

mount the HANI™ Tank Sensor

8 | HANI™

2.2 HANI™ Tank Temperature Sensor Epoxy Putty Mounting for single wall tanks

Figure 6: Clean and sand the

Figure 5: Measure out mounting

Figure 7: Sand the adhesive studs

Setting up a HANI™ Tank Temperature Sensor in the field is quick and easy. Follow the instructions
below:

Step 1: Measure out stud mounting points, 3.5” spaced vertically on the

tank wall. Vertical mounting is important on curved surfaces to
keep the studs parallel.

stud points at 3.5”

Step 2: Clean the surface of the tank wall that the HANI™ Tank

Sensor will be mounted on. Use an appropriate sandpaper
to sand the tank wall surface to improve adhesion.

Step 3: Sand the lower side of the adhesive studs to improve

adhesion.

surface the device will be mounted

on

9 | HANI™

Step 4: Use the appropriate epoxy (Omega

Figure 8: Use appropriate epoxy

Figure 9: Thoroughly mix the epoxy

Figure 10: Completely cover

with mixed

recommends JB Weld Waterweld or
JB Weld Original). Mix per
manufacturer’s instructions. When
using Waterweld, Omega
recommends about ¼” of the stick for
two studs.

Step 5: Mix thoroughly using proper PPE according to the

manufacturer’s instructions.

Step 6: Apply the mixed epoxy to the bottom of the stud, coating the

bottom surface completely.

bottom surface of stud

epoxy

10 | HANI™

Figure 11: Evenly distribute the epoxy across the top of the stud base

Step 7: Firmly press the bottom surface of the stud onto the tank surface. Reform the epoxy around

the top of the base for a uniform coating. Make sure to keep the epoxy approximately even
with the top bosses on the base.

Figure 12: Clean off excess epoxy, test fit, and let cure

Step 8: Carefully clean off any excess epoxy that has expanded beyond the base footprint of the

nd

stud. Repeat this procedure for the 2

stud. Temporarily test fit the HANI™ to make sure it
freely fits over the studs and that the applied epoxy does not interfere with the installation.
Allow the epoxy to fully cure to the manufacturer’s instructions (Omega recommends at
least a 24-hour cure time).

11 | HANI™

Step 9: Firmly press the HANI™ Tank Sensor over the

Figure 13: Secure the hardware nuts to properly

studs against the tank wall, tighten the
hardware nuts. Torque to hand tight plus 90°
turn, no more than 5 in-lbs.

Once the hardware nuts secure the HANI™ Tank
Sensor to the tank wall, the mounting process is
complete.

Be sure to remove any protective barrier
covering the thermal pad prior to mounting.

mount the HANI™ Tank Sensor

12 | HANI™

3. Wiring Diagram

Pin

Name

Function

Wiring

Pin 1

Loop -

4-20mA Return

4-20 mA

Pin 2

INTR

Interrupt Signal

Omega Link

Pin 3

SCL

I2C Clock Signal

Omega Link

Pin 4

SDA

I2C Data Signal

Omega Link

Pin 5

Shield

Shield Ground

Omega Link

Pin 6

Loop +

4-20mA Source

4-20 mA

Pin 7

GND

Power Ground

Omega Link

Pin 8

VCC

Power Supply

Omega Link

Name

Description

Loop

Power

Provides “excitation” voltage to the sensor,
typically 12-24 VDC.

Controls the current that flows through the
circuit based on the measured value.

Converts the 4-20 mA signal and displays

programmable logic controllers.

Figure 14: Female Mating

3.1 M12 8-Pin Connector

The HANI™ Tank Temperature Sensor connects to a 4-20 mA connection or Omega Link Smart
Interface through an M12 8-pin female mating connector. The connector supports the required I2C
+ INTR signal lines and the Smart Probe power signals.

Note: The image below is a view of the open end of the Female Mating M12 8-Pin Connector

not the integrated male connector on the HANI™ Tank Temperature Sensor.

and

M12 8-Pin Connector

3.1.1 4-20 mA Process Signals

Refer to the following wiring diagram of the HANI™ Tank Sensor itself in this section to setup
4-20 mA process signals.

Figure 15: 4-20 mA Process diagram of the

Integrated male HANI™ Connector

Sensor

Loop

Receiver

or transmits the measured value. This
includes PID controllers and

13 | HANI™

4. 4-20 mA Plug and Play

The HANI™ Tank Temperature Sensor can easily be integrated into your existing analog system in a
few steps. To immediately make use of the 4-20 mA plug and play feature, follow these instructions:

Step 1: Mount and strap the HANI™ Tank Temperature Sensor on the tank you will be measuring.

Step 2: Attach an 8-pin female M12 connector to your 4-20 mA analog cable (see the HANI™ Tank

Temperature Sensor wiring diagram in section
needed).

The HANI™ Tank Temperature Sensor will immediately begin reporting temperature readings.

3 Wiring Diagram – only pins 1 & 6 are

14 | HANI™

5. SYNC Configuration

Configuration

Tabs

Configuration

Panel

Important: SYNC configuration is only necessary if you will be changing the following: Tank

Material, Tank Wall Thickness, Tank Material Thermal Conductivity, or to scale Output Readings.
Ensure Omega’s SYNC configuration software is downloaded, setup, and running before
continuing. Ensure you have an Omega Link Smart Interface, such as an IF-001 or IF-006,
compatible with your HANI™ Tank Temperature Sensor.

Important: If the HANI™ Tank Temperature Sensor is being powered with a 4-20 mA connection

and will be configured using SYNC simultaneously,
PC and the HANI™ Tank Temperature Sensor to avoid false readings and potential damage to the
unit.

The HANI™ Tank Temperature Sensor can be configured using Omega’s SYNC configuration
software when the HANI™ Tank Temperature Sensor is connected through an Omega Link Smart
Interface to a computer running SYNC. Depending on the Omega Link Smart Interface being used,
the connection process may vary slightly. Refer to the User Documentation of the Omega Link
Smart Interface you are using.

Once your HANI™ Tank Temperature Sensor is connected to SYNC, you will immediately see
readings appear on the SYNC interface.

a USB Isolator must be used between the user

5.1 Configuring Inputs

Omega’s SYNC configuration software can be used to configure the HANI™ Tank Temperature
Sensor to suit your application parameters. To configure a HANI™ Tank Temperature Sensor that is
connected to an Omega Link Smart interface using SYNC, navigate to the

Inputs

configuration tab

of the SYNC interface.

Figure 16: SYNC Configuration Software – HANI™ User Interface

15 | HANI™

Once in the Inputs configuration tab, you will be presented with all the configuration options for

Type

Material

AL

Aluminum

the HANI™ Tank Temperature Sensor Inputs. HANI™ Tank Temperature Sensors come
preconfigured for stainless steel tank materials with 3-mm wall thickness. If your tank material is
something other than stainless steel and/or has a different wall thickness, follow the calibration
instructions below. To ensure accurate measurements are being reported by the HANI™ Tank
Temperature Sensor, all parameters should be correctly set for accurate measurements.

Step 1: To configure your tank wall material, go to the Sensor Settings section of the SYNC user

interface and change the

Material dropdown to the appropriate tank wall material

according to the table below:

SS Stainless Steel

CS Carbon Steel

GS Galvanized Steel

CU Copper

BR Brass

Step 3: To configure your tank wall thickness, go to the Parameters section and change the

Thickness (mm) to the appropriate wall thickness, entered in millimeters.

Step 4: Once you have completed configuring the HANI™ Tank Temperature Sensor inputs, click

Apply Settings to finalize your changes.

16 | HANI™

5.1.1 Calibration

The HANI™ Tank Temperature Sensor has a standard 2-point calibration from the factory, but
sometimes, to optimize the accuracy in the user’s application, a
necessary. A
SYNC configuration software. To perform a successful calibration, the temperature inside the
tank must be known or measurable with an immersion sensor. This immersion sensor
temperature value will be used to calibrate the HANI™ Tank Temperature Sensor based on
one of the two procedures below:

User Calibration is

Single-Point or Dual-Point User Calibration can be performed through Omega’s

Figure 17: SYNC Configuration Software – Single Point Calibration

Figure 18: SYNC Configuration Software – Dual Point Calibration

17 | HANI™

Low Actual:

The real low-temperature process value, as measured by the reference

Single-Point Calibrations

Dual-Point Calibrations

Low Reading:

The low process value read by the HANI™ Tank Temperature Sensor.

The Capture button will take a live reading from the HANI™ Tank

Low Reading

High

Reading

The real high-temperature process value, as measured by the

Single-Point Calibrations

Dual-Point Calibrations

The high process value read by the HANI™ Tank Temperature Sensor.

The Calibrate button calculates and calibrates the new slope and

Readings

Actuals

This button will clear the previously entered User Calibration values

immersion sensor in the process line. For
you may choose any temperature in the sensor’s process range. For

, it is recommended to choose a temperature

on the low-end of the sensor’s process range (i.e. 20°C).

,

Capture:

High Actual:

High Reading:

Calibrate:

Clear
Calibration:

Temperature Sensor and input the value into the

or

, as directed.

reference immersion sensor in the process line. Not applicable for

. For

, it is
recommended to choose a temperature on the high-end of the
sensor’s process range (i.e. 80°C).

offset based on the

and

entered above.

and as a result, returns the HANI™ Tank Temperature Sensor to its
factory calibration.

18 | HANI™

5.1.2 Setting Alarms

Alarms are set by clicking the icon in SYNC on the highlighted input signal found in the
Inputs configuration tab.

Note: Alarm Outputs are only available on Digital Output models currently; analog

output products do not support alarm outputs at this time but can still transmit
notifications to the Omega Link Cloud.

Figure 19: SYNC Configuration Software – Setting Alarms

Configure the Condition that triggers the alarm by selecting an option from the drop down
such as Above or Below. The

Threshold field(s) will change to display whatever is
appropriate for the option chosen such as a High Threshold for an Above condition or a Low
Threshold for a Below condition. A

Duration can be set for the trigger as well where the

condition must be met for a certain amount of time before the alarm flags.

Under the Action menu, the option to transmit or not transmit a notification can be set. The
option to enable an output can also be set. The output chosen must not be currently used in
a sensor mapping or ON/OFF control module. The data transmission interval may also be
changed upon triggering an alarm, e.g. increase the rate of transmission if an excessive
value is detected.

The Recovery menu allows the option to clear the alarm after a certain Duration once the
trigger condition is no longer met. The transmission interval can also be reset to the normal
system setting once the alarm is cleared.

To create a new alarm, click the plus icon and a new alarm will be added. To remove
an alarm once it is created, select the alarm in question on the left side of the alarm panel

and click the delete icon .

19 | HANI™

5.2 Configuring Device Settings

Omega’s SYNC configuration software can be used to configure the device settings of your HANI™
Tank Temperature Sensor. To configure your device settings, navigate to the

Device Settings

configuration tab of the SYNC interface.

Figure 20: SYNC Configuration Software – Sensor Settings

5.2.1 Transmit Interval

The transmit interval can be adjusted by navigating to the Device Settings tab in the SYNC
interface and will appear beneath the Sensor Settings section. The Transmit Interval
determines the time between readings for the HANI™ Tank Temperature Sensor. The transmit
interval will also be reset to your minimum interval based on your Omega Link Cloud account
once your device is paired to the Omega Link Cloud.

Figure 21: SYNC Configuration Software – Transmit Interval

5.2.2 Setting/Changing Passwords

HANI™ Tank Temperature Sensor data can be password protected through SYNC. Password
protecting your HANI™ Tank Temperature Sensor prevents data in the device from being
extracted without authorization. If your Smart Probe is password-protected, the password
must also be stored in the Omega Link Smart Interface so it can transmit data to the Omega
Link Cloud. To assign a password to your HANI™ Tank Temperature Sensor, follow these
instructions:

Step 1: Navigate to the Device Settings tab in the SYNC interface and click Set Passwords

under the

Sensor Settings section.

Step 2: Create a Configuration Password. Upon saving your password, you will be prompted

to update the Interface Password as well to ensure your data is transmitted to the
Omega Link Cloud.

20 | HANI™

Figure 22: SYNC Configuration Software – Password Update

Figure 23: SYNC Configuration Software – Device Login

Important: If the interface password does not match the configuration password, data

from your HANI™ Tank Temperature Sensor will not be sent to the Omega
Link Cloud.

5.2.2.1 Save Password

Password protects the SYNC configurable features of your HANI™ Tank Temperature
Sensor and saves the newly entered
password if it is successfully entered
and confirmed in both text fields.

5.2.2.2 Clear Password

The Clear Password button removes
the password protection from the
probe.

5.2.2.3 Login

Click the Login button after entering
your device password to access the
configurable features.

5.2.2.4 Reset

The Reset Password button deletes
the current password on the device.
This will cause all logged data to be erased.

After 3 failed login attempts, it is required to power cycle the device before trying to login again.

Figure 24: SYNC Configuration Software – Password Locked Device

21 | HANI™

5.3 Data Logging

Gathers the data that has been recorded or extracted and saves it in a
CSV file.

The Capture Data interface provides a chart that displays real-time data from your connected
HANI™ Tank Temperature Sensor devices. The Capture Data interface contains the following
features:

Extract Data Extracts data from the device data logger.

Start/Stop
Recording

Export Data to CSV

Note: Data will be reset if the user switches to the Configure Device interface. The SYNC

Data Capture feature is for short-term data logging.

Toggles the real-time data displays to on/off.

Figure 25: SYNC Configuration Software – Data Logging

SYNC provides four ways to navigate the Capture Data Interface:

Zoom by Rectangle

Zoom by Middle

Mouse Wheel

Pan by Left Mouse

Button

Reset Resets the graphed data to the original position.

Allows the user to left-click and drag the mouse across the graphed
data to create a rectangle that will be zoomed in on.

Allows the user to zoom in and out of the graphed data using the
middle mouse wheel. This only applies to users who have a mouse with
the necessary mouse wheel feature.

Allows the user to left-click and drag on the graphed data to navigate in
the direction of the mouse.

22 | HANI™

6. 4-20mA Loop-Powered Output

Devices configured for 4-20 mA Loop Power disable the DIO Inputs and the Digital Outputs. 4­20mA Outputs are widely used due to several advantages’ over-voltage outputs:

• Higher noise immunity

• Ability to power the sensing device using the measurement current – provided total power is

less than

• Automatic wire break detection – if the signal wires are shorted the current will exceed the
control system to detect the fault

• Automatic wire short detection – if the signal wires are shorted the current will exceed the
specified 20mA, allowing the control system to detect the fault.

The HANI™ Tank Temperature Sensor 4-20mA Loop Powered device requires a minimum loop
voltage of 8.0 volts, allowing the device to be powered using conventional 4-20mA control signals.
The factory default configuration connects the measured temperature to the 4-20mA output signal.

6.1 Sensor Mapping

The HANI™ Tank Temperature Sensor defaults to mapping the measured Temperature to the 4­20mA output. Two user-defined values (
Temperature range that is mapped to the 4-20mA. A measured value outside of the specified
range results in an Over-Range or Under-Range condition. A Factory Reset sets the Scaling
Minimum to 0°C and the Scaling Maximum to 100°C.

3.5mA * minimum loop voltage

~

Scaling Minimum, Scaling Maximum

) define the

If the Measured Value exceeds the user-defined Scaling Maximum an Over-Range condition exists
and the 4-20mA output may be configured to generate either a Fault High (21.5 mA) current or a
Fault Low (3.8 mA) current. The default setting is to generate a Fault High (21.5 mA) current.

23 | HANI™

Similarly, if the measured value is less than the user-defined Scaling Minimum an Under-Range
condition exists, and the output may be configured to generate either a Fault High or Fault Low
output. The default setting is to generate a Fault Low (3.8mA) current.

24 mA

Maximum Value

(100 oC)

Scaling Maximum

(75 oC)

Scaling Minimum

(25 oC)

Minimum Value

(-20 oC)

Lowest Operating

Current (3.6 mA)

Fault High

(21.5 mA)

20 mA

Fault Low

(3.8 mA)

4 mA

0 mA

Figure 26: SYNC Configuration Software – Sensor Mapping

A Loop Error occurs if the applied voltage of the 4-20mA loop drops below the specified minimum
loop voltage and the output will be driven to a Low Error level of ~ 3.8 mA.

24 | HANI™

6.1.1 4-20 mA Outputs Sensor Mapping

Under:

Any temperature value below the Scaling Minimum will generate an Under fault
value.

Over:

Any temperature value above the Scaling Maximum will generate an Over fault
value.

Scaling Minimum:

Set the Scaling Minimum Temperature value that will result in a 4

mA analog output.

Scaling Maximum:

Set the Scaling Maximum Temperature value that will result in a 20

mA analog output.

The HANI™ Tank Temperature Sensor offers 4-20 mA output sensor mapping. Navigate to the
Outputs Configuration Tab on SYNC.

Figure 27: SYNC Configuration Software – 4-20 mA Output Sensor Mapping

Under the Output Configuration section, you can set the under/over and error conditions of
the 4-20 mA analog output.

Under the Output Mapping section, you can set the desired 4-20 mA analog output scaling
range. The HANI™ Tank Temperature Sensor comes standard with a 0-100°C temperature
scaling range.

mA output. In this example, a temperature of 10°C will result in a 4

mA output. In this example, a temperature of 50°C will result in a 20

25 | HANI™

7. Pairing to an Omega Link Gateway

Refer to either the Wireless Pairing or Wired Pairing instructions to pair a HANI™ Tank Temperature
Sensor to an Omega Link Gateway. Before continuing to the pairing instructions, ensure the
following prerequisites are met:

• Ensure that the Omega Link Gateway has been properly setup, powered on, and is in close
physical proximity.

• (For Wired pairing) Ensure the user has access to a PC and the internal Gateway UI (refer to the
Omega Link Gateway manual for instructions on how to access the internal Gateway UI).

7.1 Wireless Pairing

Pairing a wireless Smart Interface (IF-006) and attached HANI™ Tank Temperature Sensor is made
easy with a one-button pairing system between the IF-006 and the Omega Link Gateway.

Step 1: When the HANI™ Tank Temperature Sensor and relevant accessories have been securely

connected to the IF-006, push the pairing button once on the IF-006. The LED status
indicator will blink green indicating the device is in Pairing Mode.

Step 2: Quickly push the pairing button on the Omega Link Gateway. The LED on the Gateway will

blink green indicating the Gateway is in Pairing Mode.

When the IF-006 has been successfully paired to the Omega Link Gateway, the LED will stop
blinking on both devices. Readings for the newly added sensor will then appear on the Omega
Link Cloud or Omega Enterprise Gateway interface associated with the registered Gateway.

26 | HANI™

7.2 Wired Pairing

A wired HANI™ Tank Temperature Sensor connected directly to an Omega Link Gateway with an
IF-001 cable or IF-002 will need to be added to the Gateway Internal User Interface. See the
Omega Link Gateway User’s Manual for more information. The

Connected Devices tab is the
default page shown once the user has signed in to the internal gateway UI. From here, devices can
be added to the gateway to have them appear in a registered Omega Link Cloud or Omega
Enterprise Gateway account.

Figure 28: Gateway Internal User Interface

To add a device to your gateway from the internal gateway web UI, begin by clicking the
button at the top right of the web page. Fill out the

Add Device menu with the parameters of the

Smart Probe connection.

27 | HANI™

8. Specifications

INPUT POWER
Voltage: 8VDC – 28 V
Max Loop Resistance: R

ANALOG OUTPUT
Current: 4-20 mA
User scalable analog output, default scaling 0-100°C

PROCESS PARAMETERS
Process Medium: Water, water-based fluids (others upon request)
Tank Materials: Stainless Steel (SS), Carbon Steel (CS), Galvanized Steel (GS), Copper (CU), Brass
(BR), Aluminum (AL) (others upon request)
Tank Size: 2 feet in diameter or larger (others upon request)
Process Temperature Range: -20 to 100°C

PERFORMANCE
Accuracy with Agitated Process Media:

Stainless Steel: ±0.5°C
Other Metals: ±1.0°C from factory and improved accuracy is possible with situational 1 or 2-

Response Time (τ
Response Time (τ90): 10 seconds

(Loop Powered)

DC

(Ω) = (V

MAX

point calibration

5 seconds

63):

- 8V)/0.024 A

SUPPLY

ENVIRONMENTAL
Ambient Operating Temperature: 0 to 40°C (32 to 104°F)
Rating: IP67 when mated

MECHANICAL
Dimensions: 65.9 mm W x 111.1 mm L x 43.8 mm H (2.60 in W x 4.38 in L x 1.72 in H)
Materials: PA12, silicone rubber, nickel-plated brass, stainless steel

GENERAL
Agency Approvals: CE, UKCA, EMC 2014/30/EU, LVD 2014/35/EU class II product, (low voltage 8
to 28V

DC

)

28 | HANI™

9. Appendix: HANI™ Tank Temperature Sensor Input Interface

Sensor

Descriptor Base

IPSO/Configuration

Enumerated Sensor Mix

Digital Output

4-20 mA

0

0x0060 (0xf030)

0x08a8 (0xf454)

Tank-on Temperature

1

0x0068 (0xf034)

0x09a8 (0xf4d4)

DIO

2

0x0070 (0xf038)

0x0aa8 (0xf554)

3

0x0078 (0xf03c)

0x0ba8 (0xf5d4)

Offset

Name

Value

Description

0x00

Measurement Type

0x37

Temperature (°C)

0x01

Data Type/Format

0x06

Float

0x02

Configuration

0x4?

Determines Material Type

0x03

Sensor Device

0x??

Determines connection type

0x04..0x08

UOMR

“°C”

Units of measure

9.1 Register Base Addresses

Smart Probe devices share a common platform architecture that provides extensive monitoring
and control capabilities through a set of platform generic registers. These registers may be
accessed using I2C based commands directly to the Smart Probe devices or through a set of
Modbus-based registers when using Omega Interface devices.

When powered on or after a device reset each Smart Sensor-based device will enumerate 1 or
more sensor instances which are described by the device-specific Sensor Descriptors which
include configuration options, measurement type, and units of measure for the corresponding
sensor values. Additional sensor information is provided in sensor-specific IPSO object
descriptions which include extended measurement type, precision and tracking of
minimum/maximum readings.

Each enumerated Sensor has a Descriptor Base address location and a Sensor IPSO /
Configuration structure address location based on the sensor mix selected.

9.2 HANI™ Tank Temperature Sensor Temperature Input Interface

The HANI™ Tank Temperature Sensor Input interface provides a reading of the calculated
temperature based on the measured heat flux and temperature values.

Note: The HANI™ Tank Temperature Sensor products will use a predefined configuration but

will require some customization based on the specific installation. Configuration options will
be made available to the end-user.

9.2.1 Sensor Input Descriptor

29 | HANI™

9.2.1.1 Sensor Measurement Type

Sensor Type

SI Derived Units

Measurement

0x37

°C

Temperature

HANI™ Tank Temperature Sensor Input Data Type/Format

7 6 5 4 3 2 1

0

Smart

Sensor

Factory

Calibrate

0 0 0

0

0x06 == FLOAT

HANI™ Tank Temperature Sensor Configuration Byte

7 6 5 4 3 2 1

0

Apply

Scaling

0 * ?

?

Material (see below)

Range / Type

Material

Description

Conductivity

(W/m-K)

0x00

PVC

Polyvinyl Chloride

0.190

Chlorinated Polyvinyl
Chloride

0x02

PP

Polypropylene

0.125

Perfluoroalkoxy
Alkanes

The temperature interface provides a measurement of Temperature in °C.

9.2.1.2 Sensor Input Data Type/Format

The HANI™ Tank Temperature Sensor supports extended configuration and provides
factory calibration. All data values are returned as 32-bit floating-point values.

Writeable

9.2.1.2.1 Data Type

The 4-bit Data Type field determines the type of data of the specific sensor.

9.2.1.2.2 Factory Calibrate

Factory calibration is available for the HANI™ Tank Temperature Sensor process
inputs. Clearing this bit will disable the factory calibration values.

9.2.1.2.3 Writeable

The writeable bit is cleared, indicating that the sensor values may not be overwritten.

9.2.1.3 Sensor Configuration Byte

Available Assigned

9.2.1.3.1 Sensor Range / Type

The Range / Type field determines the type of tank material, which determines the
thermal conductivity.

Reserved Data Type

Lock Sensor Range / Type

0x01 CPVC

0x03 PFA

0.137

0.209

30 | HANI™

9.2.1.3.2 Lock

If set, the user-specified units of measure string (4 character maximum) will be used
in place of the default units of measure.

9.2.1.3.3 Apply Scaling

If set, the user-defined Offset and Gain values will be used to adjust the sensor
reading:

Result = (Raw Reading * Gain) + Offset

9.2.1.3.4 Assigned

The Assigned bit will always read as 0.

9.2.1.3.5 Available

The Available bit will always read as 0.

9.2.1.4 Sensor Device Byte

The HANI™ Tank Temperature Sensor device byte is not used.

9.2.2 Sensor Temperature Parameters

The HANI™ Tank Temperature Sensor provides 2 Sensor Parameters that may be updated
based on the specific installation. The HANI™ Tank Temperature Sensor Temperature
parameters are accessible when the device is in the
Trigger Function).

normal operating mode (see IPSO

Parameter

1 0x08d0 0xf468 Thickness 1.0 – 10.0 0.1 1.7 Thickness in mm

I2C

Register

9.2.2.1 Thickness

The Thickness is used in the calculation of the temperature and is a factor of the specific
installation.

Modbus
Register

Name Range

Step

Size

Factory

Reset

Description

31 | HANI™

9.2.3 Sensor User Calibration Parameters

Parameter

I2C

Register

Modbus
Register

Name

Range

Step

Size

Factory

Reset

Description

Low

Reading

Value being read by HANI™
sensor

1

0x08d0

0xf468

Low Actual

0.0 – 100.0

0.1

0.0

Actual measured value.

High

Reading

Value being read by HANI™
sensor

High

Actual

Offset

Name

Value

Description

0xa8

Sensor Type

3303

Temperature (°C)

0xaa

Precision

1

Provides reading of xxx.x

0xac

Sensor Trigger

??

(see below)

0xb0

Min Measured

??

Minimum reading since the last reset

0xb4

Max Measured

??

Maximum reading since the last reset

0xb8

Min Range

0

Minimum temperature

0xbc

Max Range

100

Maximum temperature

The HANI™ Tank Temperature Sensor provides a single or dual-point User Calibration.

The HANI™ Tank Temperature Sensor parameters are accessible when the device is in the
Calibration mode (see IPSO Trigger Function). The Calibration Value is calculated internally
during the User Calibration sequence and is not externally accessible.

0 0x08c0 0xf460

2 0x08e0 0xf470

3 0x08f0 0xf478

9.2.3.1 Low Reading

The temperature value being read by the HANI sensor.

9.2.3.2 Low Actual

The actual low temperature as measured by an external, independent sensor.

9.2.3.3 High Reading

The temperature value being read by the HANI sensor.

9.2.3.4 High Actual

The actual high temperature as measured by an external, independent sensor.

9.2.4 Sensor IPSO Definition

The HANI™ Tank Temperature Sensor IPSO definition provides signal range, measured
min/max values, IPSO object type information. The Range information is Temperature Type
dependent.

0.0 – 100.0 0.1 0.0

0.0 – 100.0 0.1 100.0

0.0 – 100.0 0.1 100.0 Actual measured value.

9.2.4.1 Precision

The measured temperature value is rounded to provide ±0.1 degree resolution.

32 | HANI™

9.2.4.2 Sensor Trigger

Sensor Trigger

7 6 5 4 3 2 1

0

Reset

15

14

13

12

11

10 9 8

Calibration

Reset

Calibration

Status

Calibration

Mode

Capture

High

Capture

Low

Calibration

Start

The Sensor Trigger function is used to reset the IPSO min/max values as well as
controlling the Calibration process.

0 0 0 0 0 0 0

0 0

Setting the Reset Min/Max bit to 1 will reset the Min/Max values recorded by the IPSO
process.

9.2.4.2.1 User Calibration Sequence

User Calibration allows the user to adjust out small errors by providing an offset
(single-point calibration) or offset and gain (dual point calibration) to the measured
temperature value. The following sequence may be used to set the correction value:

1. Write 0x0800 to the Trigger Function register (Calibration Mode bit set). This
forces the device into Calibration Mode and the Sensor Parameter register
access is replaced with the Sensor Calibration register access.

Dual Point Calibration

Min/Max

2. Apply a known fluid temperature near the lower end of the expected
temperature range and enter it into the Low Actual register (0x08c4 / 0xf462).

3. Record the value being measured by the HANI sensor and enter it into the Low
Reading register (0x08c0 / 0xf460). This process can be simplified by writing a
value of 0x0a00 to the Trigger Function register which will cause the HANI
sensor to capture the current reading and save it as the Low Reading Value.

4. Apply a known fluid temperature near the higher end of the expected
temperature range and enter it into the High Actual register (0x08cc / 0xf466).

5. Record the value being measured by the HANI sensor and enter it into the High
Reading register (0x08c8 / 0xf464). This process can be simplified by writing a
value of 0x0c00 to the Trigger Function register which will cause the HANI
sensor to capture the current reading and save it as the High Reading Value.

6. Write 0x0900 to the Trigger Function register (Calibration Mode and Calibration
Start). Internally the device will set the Calibration Status bit and calculate the
Gain and Offset linearization values. When the calibration calculation is
complete the Calibration Status bit is cleared.

33 | HANI™

7. Write 0x0000 to the Trigger Function register to return the device to the normal

Offset

Name

Value

Description

0x00

Sensor Type

0x18

Digital Type (Bit mapped)

Data

Type/Format

Configurable, Float type

0x02

Configuration

0x23

Scaling applied, Bits 0 and 1 enabled

0x03

Sensor Device

0x0f

DIN bits enabled / inverted

0x04

UOMR

“DIN”

Units of measure

operating mode.

Single Point Calibration

8. Apply a known fluid temperature near the center of the expected temperature
range and enter it into the Low Actual register (0x08c4 / 0xf462).

9. Record the value being measured by the HANI sensor and enter it into the Low
Reading register (0x08c0 / 0xf460). This process can be simplified by writing a
value of 0x0a00 to the Trigger Function register which will cause the HANI
sensor to capture the current reading and save it as the Low Reading Value.

10. Write the same value from Step 8 into the High Actual register (0x08cc / 0xf466).

11. Write 0x0900 to the Trigger Function register (Calibration Mode and Calibration
Start). Internally the device will set the Calibration Status bit and calculate the
Offset value. When the calibration calculation is complete the Calibration Status
bit is cleared.

Write 0x0000 to the Trigger Function register to return the device to the normal
operating mode.

The Correction value may be reset to zero by writing 0x2800 (Calibration Reset and
Calibration Mode) to the Trigger register.

9.3 DIO Interface

The Digital output option supports a DIO Interface that provides 2 digital inputs that are hardwired
to the Digital outputs. These may be used to detect the state of external switches (output off) or to
monitor the state of the outputs.

Note: The DIO is not available for units configured with 4-20 mA outputs.

9.3.1 DIO Descriptor

0x01

0x46

34 | HANI™

9.3.1.1 DIO Sensor Type

Sensor Type

SI Derived Units

Measurement

DIO Data Type/Format

7 6 5 4 3 2 1

0

Smart

Factory

0 0 0

0

6 == Floating point

DIO Input Configuration

7 6 5 4 3 2 1

0

Apply

Scaling

0 0 1

?

0x03 == bits 0 and 1

The interface provides a bit mapped input of the 2 digital signal lines.

0x18 DIN Bit mapped digital inputs

9.3.1.2 DIO Data Type/Format

Sensor

Writeable

Calibrate

9.3.1.2.1 Data Type

The 4-bit Data Type field determines the type of data of the specific sensor.

9.3.1.2.2 Factory Calibrate

The Factory Calibrate bit is not used for DIO types.

9.3.1.2.3 Writeable

This indicates that the sensor value may be overwritten. Not used on DIO inputs.

9.3.1.3 DIO Input Configuration

Available Assigned

9.3.1.3.1 Lock

If set, the user-specified units of measure string (4 character maximum) will be used
in place of the default

9.3.1.3.2 Apply Scaling

If set, the user-defined Offset and Gain values will be used to adjust the sensor
reading:

reserved Data Type

Lock Sub Channel Selection

DIN.

9.3.1.3.3 Assigned

The Assigned bit will always read as 0.

9.3.1.3.4 Available

The Available bit will always read as 0.

Result = (Raw Reading * Gain) + Offset

35 | HANI™

9.3.1.4 DIO Device Configuration

DIO Device Configuration

7 6 5 4 3 2 1

0

Reserved

DIN 1

DIN 0

ENABLE

INVERT

ENABLE

INVERT

1 1 1

1

Offset

Name

Value

Description

0xa8

Sensor Type

3349

Bit Mapped Digital

0xaa

Precision

0

Provides reading of xxx

0xac

Sensor Trigger

??

Write 0x0001 force reset of min / max

0xb0

Min Measured

??

Minimum reading since the last reset

0xb4

Max Measured

??

Maximum reading since the last reset

0xb8

Min Range

0

Minimum reading

0xbc

Max Range

3

Maximum reading

Sensor Trigger Function

7 6 5 4 3 2 1

0

Reset

Min/Max

15

14

13

12

11

10 9 8 0 0 0 0 0 0 0 0

The DIO Device Configuration allows enabling each of the 2 input bits and selecting
whether the input is active HIGH (reads as 1 when input is not grounded) or active LOW
(reads as 1 when input is grounded).

0 0 0 0

9.3.1.4.1 Invert

If the Invert bit is set the input is active LOW.

9.3.1.4.2 Enable

If the Enable bit is set the input is enabled.

9.3.2 DIO IPSO Definition

The DIO input IPSO definition provides signal range, measured min/max values, IPSO object
type information.

9.3.2.1 Sensor Trigger Function

The Sensor Trigger function is used to reset the IPSO min/max values as well as
controlling the Calibration process.

0 0 0 0 0 0 0

Setting the Reset Min/Max bit to 1 will reset the Min/Max values recorded by the IPSO
process.

No User Calibration process is supported on the DIO inputs and all Configuration bits
should be written as 0.

36 | HANI™

9.4 Output Configuration Registers

Output

Name

Modbus
Address

I2C

Address

Size

Typical Description

0

Output 0 Descriptor

0xf09a

0x0134

uint16

PWM 0 or 4-20 mA

1

Output 1 Descriptor

0xf09b

0x0136

uint16

PWM 1 (see below)

2

Output 2 Descriptor

0xf09c

0x0138

uint16

Phantom (non-configurable)

3

Output 3 Descriptor

0xf09d

0x013a

uint16

Phantom (non-configurable)

Sensor

Name

Modbus

Address

I2C

Address

Size

Description

Output 0 Low Scale

0xf1f0

0x03e0

float

Sets lower input range

Output 0 High Scale

0xf1f2

0x03e4

float

Sets upper input range

Output 1 Low Scale

0xf1f4

0x03e8

float

Sets lower input range

Output 1 High Scale

0xf1f6

0x03ec

float

Sets upper input range

Output 2 Low Scale

0xf1f8

0x03f0

float

Sets lower input range

Output 2 High Scale

0xf1fa

0x03f4

float

Sets upper input range

Output 3 Low Scale

0xf1fc

0x03f8

float

Sets lower input range

Output 3 High Scale

0xf1f2e

0x03fc

float

Sets upper input range

Output

Name

Modbus
Address

I2C

Address

Size

Description

0

Output 0 Value

0xf078

0x00f0

float

Percent of full-scale value (0-100%)

1

Output 1 Value

0xf07a

0x00f4

float

Percent of full-scale value (0-100%)

2

Output 2 Value

0xf07c

0x00f8

float

Percent of full-scale value (0-100%)

3

Output 3 Value

0xf07e

0x00fc

float

Percent of full-scale value (0-100%)

Outputs share a common structure which consists of 3-fields mapped to a 16-bit unsigned integer,
accessible in the Smart Sensor register map.

Refer to the specific output type for further information.

9.4.1 Scaling Minimum / Maximum Values

When Sensor Mapping is used the user may specify the input signal range through the
Scaling Minimum and Scaling Maximum parameters. There is one pair of registers for each of
the 4 possible outputs.

0

1

2

3

When either the Low Scale or High Scale value changes, an internal calculation is performed
to calculate the linear transformation to be applied to the sensor reading.

9.4.2 Output Values

Outputs use float values which represent the percentage of full scale. If the output is not
mapped, the value written (0 – 100%) is identical to the value that is read back.

If the output is mapped, the scaling values are used to transform the minimum input value to
0% and the maximum input value to 100%.

37 | HANI™

9.4.3 Output Names

Output

Name

Modbus
Address

I2C

Address

Size

Description

0

Output 0 Name

0xf078

0xf720

char[16]

Defaults to Output_0

1

Output 1 Name

0xf07a

0xf728

char[16]

Defaults to Output_1

2

Output 2 Name

0xf07c

0xf730

char[16]

Defaults to Output_2

3

Output 3 Name

0xf07e

0xf738

char[16]

Defaults to Output_3

Each output has a name. The default names for the outputs are Output_0 through Output_3.
The default names may be overwritten, such as ‘Stack_Lite’ or ‘Control_Valve’. Names are
restricted to 16 characters.

The Output names are retained until a factory reset occurs.

It is strongly recommended that:

1. Spaces within the name should be replaced with the ‘_’ character.

2. All output names on a particular device are unique – if duplicate functions are supported
append a ‘_x’ string, where x represents the instance. For example,

Stack_Lite_2

could be used if 2 stack lights are being connected.

Stack_Lite_1

and

9.4.4 Process Temperature

The process fluid temperature can be obtained by reading the below register. The value is returned as a
single precision floating point (4 bytes).

Name

Process Temperature 0xF01E 0x003C float Process Temperature

Modbus

Address

I2C

Address

Size Description

9.5 4-20 mA Output Configuration

4-20 mA outputs are widely used due to several advantages over-voltage outputs:

1. Higher noise immunity

2. Ability to power the sensing device using the measurement current – provided total
power is less than ~ 3.5 mA X minimum loop voltage.

3. Automatic wire break detection – if the signal wires break the current drops to 0 mA,
allowing the control system to detect the fault.

4. Automatic wire short detection – if the signal wires are shorted the current will exceed
the specified 20 mA, allowing the control system to detect the fault.

38 | HANI™

The HANI™ Tank Temperature Sensor 4-20 mA Loop Powered device requires a minimum loop

4-20 mA Output Configuration

7 6 5 4 3 2 1

0

Output Configuration

System Error

3.8 mA

0

21.5
mA

1

High Range Error

3.8 mA

0

21.5 mA

1

Pass-thru

2 (3)

Low Range Error

3.8 mA

0

21.5 mA

1

Pass-thru

2 (3)

15

14

13

12

11

10 9 8

Output Type

Sensor Mapping

No Mapping

0 - -

Sensor 0

1 0 0

Sensor 1

1 0 1

Sensor 2

1 1 0

Sensor 3

1 1 1

Not

Enabled

0
Enabled

1

4-20 mA

0 1 0

0

voltage of 8.0 volts, allowing the device to be powered using conventional 4-20 mA control signals.
The factory default configuration connects the measured temperature to the 4-20 mA output
signal.

0 0 0

Mapping

Enabled

Output Type

9.5.1 High Range / Low Range

The High Range and Low Range configuration values determine what 4-20 mA signal is
generated if the signal is above or below the specified input range. The pass-thru option
indicates that the output signal is not clamped.

If the Measured Value exceeds the user-defined Input Maximum an
exists. The 4-20 mA output may be configured to generate a Fault High (21.5 mA) current or a
Fault Low (3.8 mA) current when an Over Range condition occurs.

Similarly, if the Measured Value is less than the user-defined Input Minimum an
condition exists, and the output may be configured to generate either a Fault High or Fault
Low output.

A Loop Error occurs if the applied voltage of the 4-20 mA loop drops below the specified
minimum loop voltage and the output will be driven to a low Error level of ~ 3.5 mA.

9.5.2 System Error

The System Error setting defines whether the output is driven to a low current or high current
if an internal system error occurs.

9.5.3 Output Type

The Output Type is fixed as a 4-20 mA output.

Over-Range

condition

Under-Range

9.5.4 Mapping Enabled

If set, the read-only Mapping Enabled bit indicates that the output may be optionally directly
mapped to a sensor input. If the Mapping Enabled bit is clear no mapping is supported, and
the Sensor Mapping field is ignored.

39 | HANI™

9.5.5 Output Mapping

Name

Modbus
Address

I2C

Address

Size

Description

Scaling Minimum

0xf1f0

0x03e0

float

Sets lower input range

Scaling Maximum

0xf1f2

0x03e4

float

Sets upper input range

The Output Mapping value may select ‘no mapping’ or Sensor 0 through 3. If no mapping is
selected the 4-20 mA output may be directly controlled by writing a value from 0 – 100 % (0
mA to 24 mA) to the internal Output Value. If a Sensor is selected the 4-20 mA output will be
scaled to track the measured sensor value between the Scale Low and Scale High range.

If no sensor mapping is in place the output value is determined by the percent activation
applied (0 – 100 %). For example, 50% excitation generates an output current of 12 mA,
whereas an 75% activation generate an output of (75 / 100 ) * 24 mA == 18 mA.

9.5.6 Scaling Minimum/Maximum Values

When Sensor Mapping is used with the 4-20mA output, the user may specify the input signal
range through the Scaling Minimum and Scaling Maximum parameters.

Note: Due to the Loop Power requirements specifying an output value below 15% (3.5

mA) will typically be clamped at 3.6 mA.

9.5.7 4-20 mA Loop Powered Error

A Loop Error occurs if the applied voltage of the 4-20 mA loop drops below the specified
minimum loop voltage and the output will be driven to a low Error level of ~ 3.5 mA.

9.6 Digital Output Configuration

The Digital output option provides two output signals which may be configured for ON/OFF, PWM,
or SERVO outputs through the Output Configuration registers. The remaining outputs are assigned
as phantom devices which are non-configurable.

40 | HANI™

The highlighted entries show typical default configurations.

Digital Output Configuration

7 6 5

4

3 2 1

0

Output Configuration

Servo Range

1.0 – 2.0

0

0.5 – 2.5

1

Active State

LOW

0

HIGH

1

Rate

100 Hz

0 0 0

10 Hz

0 0 1

1 Hz

0 1 0

0.1 Hz

0 1 1

50 Hz

1 0 0

33 Hz

1 0 1

25 Hz

1 1 0

20 Hz

1 1 1

15

14

13

12

11

10 9 8

Output Type

No Mapping

0 - -

Sensor 0

1 0 0

Sensor 1

1 0 1

Sensor 2

1 1 0

Sensor 3

1 1 1

Not

Enabled

0
Enabled

1

Output Type

Null

0 0 0 0 ON/OFF

0 0 0 1 PWM

0 0 1 0 Servo

0 0 1

1

PWM Rate

Name

Description

PWM signal has constant 100 Hertz frequency (10 msec
repetition rate) with 0 – 100 % duty cycle

PWM signal has constant 10 Hertz frequency (100 msec
repetition rate) with 0 – 100 % duty cycle

PWM signal has constant 1 Hertz frequency (1 sec repetition
rate) with 0 – 100 % duty cycle

PWM signal has constant 0.1 Hertz frequency (10 second
repetition rate) with 0 – 100 % duty cycle

Sensor Mapping

9.6.1 Rate

The Rate determines the repetition rate, or frequency, of the Digital Output. For On/Off
outputs the rate field is ignored.

9.6.1.1 PWM Rate

The digital output supports the following PWM frequencies:

0 100 Hz

1 10 Hz

Mapping

Enable

2 1 Hz

3 0.1 Hz

41 | HANI™

9.6.1.2 SERVO Rate

PWM Rate

Name

Description

PWM signal has constant 100 Hertz frequency (10 msec
repetition rate) with 0 – 100 % duty cycle

PWM signal has constant 50 Hertz frequency (20 msec
repetition rate) with 0 – 100 % duty cycle

Smart Sensor probes support the following SERVO frequencies:

9.6.2 Output Type

Smart Sensor probes support NULL (0), ON/OFF (1), PWM (2) and SERVO (3) outputs. When
set to NULL the output signal will be left in a high impedance state. When set to ON/OFF the
Rate and Servo Range controls have no effect. When the SERVO type is selected the Duty­Cycle is restricted so the output signal is either 0.5 – 2.5 msec or 1.0 to 2.0 msec based on the
Servo Range bit.

9.6.3 Active State

Smart Sensor digital outputs may be configured as Active HIGH or Active LOW. When set to 1
(Active High), the output will be high impedance when active. When set to 0 (Active Low), the
output will be low impedance (~ 0.0 volts) when active. The Factory reset value is 0 (Low).

0 100 Hz

4 50 Hz

9.6.4 Mapping Enabled

The read-only Mapping Enabled bit indicates that the output may be optionally directly
mapped to a sensor input based on the Sensor Mapping field. If the Mapping Enabled bit is
clear no mapping is supported, and the Sensor Mapping field is ignored.

9.6.5 Output Mapping

The Output Mapping value may select ‘no mapping’ or any of Sensor 0..3. If no mapping is
selected the output may be directly controlled by writing a value from 0 – 100 % to the
internal Output Value. If a Sensor is selected and the hardware supports the mapping the
output will track the selected sensor value, scaled by the Output Minimum and Output
Maximum values.

If Output Mapping is enabled for PWM outputs the scaling values are used such that a signal
input at or below the Scaling Low-value results in a 0% output and a signal input at or above
the Scaling High-value results in a 100% PWM duty cycle.

If Output Mapping is enabled for SERVO outputs the scaling values are used such that a
signal input at or below the Scaling Low-value results in a minimum (0.5 or 1.0 msec) pulse
width and a signal input at or above the Scaling High-value results in a maximum (2.0 or 2.5
msec) pulse width.

42 | HANI™

WARRANTY/DISCLAIMER

OMEGA ENGINEERING, INC. warrants this unit to be free of defects in materials and workmanship for a
period of 13 months from date of purchase. OMEGA’s WARRANTY adds an additional one (1) month
grace period to the normal one (1) year product warranty to cover handling and shipping time. This
ensures that OMEGA’s customers receive maximum coverage on each product.

If the unit malfunctions, it must be returned to the factory for evaluation. OMEGA’s Customer Service
Department will issue an Authorized Return (AR) number immediately upon phone or written request.
Upon examination by OMEGA, if the unit is found to be defective, it will be repaired or replaced at no
charge. OMEGA’s WARRANTY does not apply to defects resulting from any action of the purchaser,
including but not limited to mishandling, improper interfacing, operation outside of design limits,
improper repair, or unauthorized modification. This WARRANTY is VOID if the unit shows evidence of
having been tampered with or shows evidence of having been damaged as a result of excessive corrosion;
or current, heat, moisture or vibration; improper specification; misapplication; misuse or other operating
conditions outside of OMEGA’s control. Components in which wear is not warranted, include but are not
limited to contact points, fuses, and triacs.

OMEGA is pleased to offer suggestions on the use of its various products. However,
OMEGA neither assumes responsibility for any omissions or errors nor assumes liability for
any damages that result from the use of its products in accordance with information provided
by OMEGA, either verbal or written. OMEGA warrants only that the parts manufactured by the
company will be as specified and free of defects. OMEGA MAKES NO OTHER WARRANTIES OR
REPRESENTATIONS OF ANY KIND WHATSOEVER, EXPRESSED OR IMPLIED, EXCEPT THAT OF
TITLE, AND ALL IMPLIED WARRANTIES INCLUDING ANY WARRANTY OF MERCHANTABILITY
AND FITNESS FOR A PARTICULAR PURPOSE ARE HEREBY DISCLAIMED. LIMITATION OF
LIABILITY: The remedies of purchaser set forth herein are exclusive, and the total liability of
OMEGA with respect to this order, whether based on contract, warranty, negligence,
indemnification, strict liability or otherwise, shall not exceed the purchase price of the
component upon which liability is based. In no event shall OMEGA be liable for
consequential, incidental or special damages.

CONDITIONS: Equipment sold by OMEGA is not intended to be used, nor shall it be used: (1) as a “Basic
Component” under 10 CFR 21 (NRC), used in or with any nuclear installation or activity; or (2) in medical
applications or used on humans. Should any Product(s) be used in or with any nuclear installation or
activity, medical application, used on humans, or misused in any way, OMEGA assumes no responsibility
as set forth in our basic WARRANTY/DISCLAIMER language, and, additionally, purchaser will indemnify
OMEGA and hold OMEGA harmless from any liability or damage whatsoever arising out of the use of the
Product(s) in such a manner.

RETURN REQUESTS/INQUIRIES

Direct all warranty and repair requests/inquiries to the OMEGA Customer Service Department.
BEFORE RETURNING ANY PRODUCT(S) TO OMEGA, PURCHASER MUST OBTAIN AN AUTHORIZED
RETURN (AR) NUMBER FROM OMEGA’S CUSTOMER SERVICE DEPARTMENT (IN ORDER TO AVOID
PROCESSING DELAYS). The assigned AR number should then be marked on the outside of the return
package and on any correspondence.

The purchaser is responsible for shipping charges, freight, insurance and proper packaging to prevent
breakage in transit.

FOR WARRANTY RETURNS, please have the
following information available BEFORE contacting
OMEGA:

1. Purchase Order number under which the product
was PURCHASED,

2. Model and serial number of the product under
warranty, and

3. Repair instructions and/or specific problems

relative to the product.

OMEGA’s policy is to make running changes, not model changes, whenever an improvement is possible. This affords
our customers the latest in technology and engineering.

OMEGA is a trademark of OMEGA ENGINEERING, INC.
© Copyright 2019 OMEGA ENGINEERING, INC. All rights reserved. This document may not be copied, photocopied,

reproduced, translated, or reduced to any electronic medium or machine-readable form, in whole or in part, without the
prior written consent of OMEGA ENGINEERING, INC.

FOR NON-WARRANTY REPAIRS,
OMEGA for current repair charges. Have
the following information available BEFORE
contacting OMEGA:

1. Purchase Order number to cover the COST
of the repair,

2. Model and serial number of the product, and

3. Repair instructions and/or specific problems
relative to the product.

consult

Where Do I Find Everything I Need for

Process Measurement and Control?

OMEGA…Of Course!

Shop online at omega.com

TEMPERATURE

MU

Thermocouple, RTD & Thermistor Probes, Connectors, Panels & Assemblies

MU

Wire: Thermocouple, RTD & Thermistor

MU

Calibrators & Ice Point References

MU

Recorders, Controllers & Process Monitors

MU

Infrared Pyrometers

PRESSURE, STRAIN AND FORCE

MU

Transducers & Strain Gages

MU

Load Cells & Pressure Gages

MU

Displacement Transducers

MU

Instrumentation & Accessories

FLOW/LEVEL

MU

Rotameters, Gas Mass Flowmeters & Flow Computers

MU

Air Velocity Indicators

MU

Turbine/Paddlewheel Systems

MU

Totalizers & Batch Controllers

pH/CONDUCTIVITY

MU

pH Electrodes, Testers & Accessories

MU

Benchtop/Laboratory Meters

MU

Controllers, Calibrators, Simulators & Pumps

MU

Industrial pH & Conductivity Equipment

DATA ACQUISITION

MU Communications-Based Acquisition Systems
MU Data Logging Systems
MU Wireless Sensors, Transmitters, & Receivers
MU Signal Conditioners
MU Data Acquisition Software

HEATERS

MU

Heating Cable

MU

Cartridge & Strip Heaters

MU

Immersion & Band Heaters

MU

Flexible Heaters

MU

Laboratory Heaters

ENVIRONMENTAL
MONITORING AND CONTROL

MU

Metering & Control Instrumentation

MU

Refractometers

MU

Pumps & Tubing

MU

Air, Soil & Water Monitors

MU

Industrial Water & Wastewater Treatment

MU

pH, Conductivity & Dissolved Oxygen Instruments